
Restless Legs Syndrome: What Works and What Doesn't
Restless Legs Syndrome (RLS) (also known as Willis Ekbom disease) is more than just an annoying urge to move your legs—it's a neurological condition and a sleep disorder that can seriously disrupt sleep and daily life. An irresistible urge to move, especially in the evening or when lying down, is often paired with uncomfortable sensations—such as tingling, aching, or crawling—that are a hallmark of the condition and are only relieved by movement.
These symptoms of restless legs are most noticeable during periods of rest or inactivity. For many, this cycle of discomfort leads to poor sleep, irritability, and fatigue that affects their overall well-being. RLS often begins in middle age, but it can develop earlier or later. People may develop RLS due to genetic factors or underlying medical conditions. In addition, periodic limb movement disorder is a related sleep disorder that can further disrupt sleep in those with RLS.
The good news? RLS is treatable. The 2025 clinical guidelines from the American Academy of Sleep Medicine (AASM) recommend a personalized treatment approach, combining medications, iron therapy, and lifestyle modifications [1]. Let's explore the latest evidence and strategies to help patients get relief and better rest.
Iron plays a surprisingly central role in RLS. Low ferritin levels—an indicator of iron storage—are strongly linked to symptom severity. Iron deficiency is a common underlying cause of RLS. When ferritin levels fall below 75 ng/mL, the AASM recommends initiating oral iron therapy with ferrous sulfate [1].
Diagnosis of RLS often involves taking a thorough medical history, using a sleep diary to track symptoms and sleep patterns, and evaluating for other sleep conditions. Blood tests are used to check for iron deficiency and to rule out other causes such as kidney failure and sleep apnea.
Why? Because restoring iron stores can significantly reduce or even eliminate RLS symptoms in many cases. This is especially important in children, pregnant women—who are at increased risk for RLS due to iron and folate deficiencies—and adults who don't require other medications. Think of iron as the body's fuel for dopamine production—something that RLS patients tend to lack. If the tank's empty, symptoms flare.
For those with absorption issues or extremely low levels, intravenous (IV) iron may be an option under medical supervision. But in most cases, a daily iron supplement can be a simple, effective starting point.
Dopaminergic medications have long been the go-to treatment for RLS. Drugs like ropinirole, pramipexole, and rotigotine are dopamine agonist medications that mimic dopamine, specifically the brain chemical dopamine, which is a chemical messenger dopamine involved in muscle movement and sensory regulation. These drugs work by increasing dopamine levels in the brain and acting on dopamine receptors to relieve symptoms. They can be very effective—especially in the early stages of treatment.
Ropinirole, in particular, is FDA-approved and backed by three robust clinical trials. These studies showed notable improvements in the International RLS Rating Scale (IRLS) and Clinical Global Impressions-Improvement Scale (CGI-I) at an average dose of 2 mg/day over 12 weeks [2] [3].
But there's a catch. Over time, some patients experience 'augmentation'—a worsening of symptoms, either earlier in the day or in new body parts. Others may develop side effects like nausea, dizziness, impulse control disorder (such as compulsive gambling or shopping), daytime drowsiness, or weight gain.
Symptoms occur when side effects or augmentation develop, and certain medications—including antipsychotic drugs and anti seizure medications—can interact with dopaminergic agents or worsen RLS symptoms. Some medications can worsen symptoms, worsen RLS, or make RLS symptoms worse, so monitoring is needed to prevent symptoms worse and worsening symptoms.
Because of these risks, the 2025 AASM guideline recommends limiting dopaminergic agents to carefully selected patients and emphasizing routine monitoring [1]. For many, these medications still play an important role in treating RLS, especially in severe RLS cases, but with caution and close follow-up to treat RLS, relieve symptoms, and ensure that treating RLS does not lead to further complications.
When dopamine agonists aren't suitable—due to side effects, contraindications, or comorbidities like end-stage renal disease (ESRD)—other medication classes come into play. These medications are also used to treat periodic limb movement disorder, a related sleep disorder.
Periodic limb movement and periodic limb movements are common in RLS and can disrupt sleep, making their management important for overall sleep quality. Patients with developing RLS in middle age or those with early onset (before age 45) may particularly benefit from these alternatives.
Gabapentin and gabapentin enacarbil (a longer-acting version) are particularly helpful in RLS patients with sleep disturbances or pain. These alpha-2-delta ligands work by calming nerve activity and improving sleep quality. They act on the central nervous system, nervous system, and may affect the spinal cord to help control symptoms [6]. They're a go-to choice for people who can't tolerate dopamine drugs or who are at high risk for augmentation.
In rare, severe cases, extended-release oxycodone may be prescribed. But opioids are considered a last resort due to concerns around tolerance, dependence, and long-term safety [1]. There is also an increased risk of adverse effects, including dependence and other complications. That said, for patients with refractory RLS who have exhausted other options, carefully monitored opioid use can provide much-needed, though often only temporary relief.
Guidelines for these medications are developed by a combined task force of experts in the field of clinical sleep medicine, ensuring recommendations are evidence-based and up to date.
Medications aren't the only answer. In fact, combining drug therapy with non-pharmacological treatments often leads to the best outcomes—especially for those with mild to moderate RLS or who want to minimize medication use. Simple lifestyle changes—such as improving sleep hygiene, adjusting daily routines, and avoiding triggers—can also play a key role in managing RLS symptoms.
A 2019 systematic review highlighted several low-risk interventions with emerging benefits [4] [5]:
For ESRD patients, cool dialysate and intradialytic stretching have been shown to reduce RLS severity during dialysis sessions.
While more large-scale studies are needed, these approaches offer accessible, often cost-effective ways to support conventional treatments. RLS is one of several sleep disorders, and consulting a sleep specialist may be helpful for complex or persistent cases.
Whether you're starting iron therapy, trying ropinirole, or exploring non-drug therapies, ongoing monitoring is essential. Symptoms may wax and wane, and medications can lose effectiveness or cause side effects over time.
Regular follow-up visits allow healthcare providers to:
For many patients, managing RLS becomes a long-term balancing act—but one that's highly achievable with the right support and care plan.
Restless Legs Syndrome may not be dangerous, but it can take a serious toll on sleep, mental health, and quality of life. Fortunately, there are more treatment options than ever—ranging from iron supplements and dopamine agonists to gabapentin, opioids, and innovative non-drug therapies.
What matters most is a personalized, evidence-based approach. For patients, that means partnering with a knowledgeable provider, staying open to a combination of treatments, and committing to regular check-ins. Relief is possible—and better sleep is well within reach.
[1] Winkelman, J. W., Berkowski, J. A., DelRosso, L. M., Koo, B. B., Scharf, M. T., Sharon, D., Zak, R. S., Kazmi, U., Falck-Ytter, Y., Shelgikar, A. V., Trotti, L. M., & Walters, A. S. (2025). Treatment of restless legs syndrome and periodic limb movement disorder: an American Academy of Sleep Medicine clinical practice guideline. Journal of clinical sleep medicine : JCSM : official publication of the American Academy of Sleep Medicine, 21(1), 137–152. https://doi.org/10.5664/jcsm.11390
[2] Harrison, E. G., Keating, J. L., & Morgan, P. E. (2019). Non-pharmacological interventions for restless legs syndrome: a systematic review of randomised controlled trials. Disability and rehabilitation, 41(17), 2006–2014. https://doi.org/10.1080/09638288.2018.1453875
[3] Bega, D., & Malkani, R. (2016). Alternative treatment of restless legs syndrome: an overview of the evidence for mind-body interventions, lifestyle interventions, and neutraceuticals. Sleep medicine, 17, 99–105. https://doi.org/10.1016/j.sleep.2015.09.009
[4] Ferini-Strambi L. (2009). Treatment options for restless legs syndrome. Expert opinion on pharmacotherapy, 10(4), 545–554. https://doi.org/10.1517/14656560902793605
[5] Chen, J. J., Lee, T. H., Tu, Y. K., Kuo, G., Yang, H. Y., Yen, C. L., Fan, P. C., & Chang, C. H. (2022). Pharmacological and non-pharmacological treatments for restless legs syndrome in end-stage kidney disease: a systematic review and component network meta-analysis. Nephrology, dialysis, transplantation : official publication of the European Dialysis and Transplant Association - European Renal Association, 37(10), 1982–1992. https://doi.org/10.1093/ndt/gfab290
[6] Anguelova, G. V., Vlak, M. H. M., Kurvers, A. G. Y., & Rijsman, R. M. (2020). Pharmacologic and Nonpharmacologic Treatment of Restless Legs Syndrome. Sleep medicine clinics, 15(2), 277–288. https://doi.org/10.1016/j.jsmc.2020.02.013

Try Our AI Features
Explore what Daily8 AI can do for you:
Comments
No comments yet...
Related Articles


Los Angeles Times
4 days ago
- Los Angeles Times
Restless Legs Syndrome: What Works and What Doesn't
Restless Legs Syndrome (RLS) (also known as Willis Ekbom disease) is more than just an annoying urge to move your legs—it's a neurological condition and a sleep disorder that can seriously disrupt sleep and daily life. An irresistible urge to move, especially in the evening or when lying down, is often paired with uncomfortable sensations—such as tingling, aching, or crawling—that are a hallmark of the condition and are only relieved by movement. These symptoms of restless legs are most noticeable during periods of rest or inactivity. For many, this cycle of discomfort leads to poor sleep, irritability, and fatigue that affects their overall well-being. RLS often begins in middle age, but it can develop earlier or later. People may develop RLS due to genetic factors or underlying medical conditions. In addition, periodic limb movement disorder is a related sleep disorder that can further disrupt sleep in those with RLS. The good news? RLS is treatable. The 2025 clinical guidelines from the American Academy of Sleep Medicine (AASM) recommend a personalized treatment approach, combining medications, iron therapy, and lifestyle modifications [1]. Let's explore the latest evidence and strategies to help patients get relief and better rest. Iron plays a surprisingly central role in RLS. Low ferritin levels—an indicator of iron storage—are strongly linked to symptom severity. Iron deficiency is a common underlying cause of RLS. When ferritin levels fall below 75 ng/mL, the AASM recommends initiating oral iron therapy with ferrous sulfate [1]. Diagnosis of RLS often involves taking a thorough medical history, using a sleep diary to track symptoms and sleep patterns, and evaluating for other sleep conditions. Blood tests are used to check for iron deficiency and to rule out other causes such as kidney failure and sleep apnea. Why? Because restoring iron stores can significantly reduce or even eliminate RLS symptoms in many cases. This is especially important in children, pregnant women—who are at increased risk for RLS due to iron and folate deficiencies—and adults who don't require other medications. Think of iron as the body's fuel for dopamine production—something that RLS patients tend to lack. If the tank's empty, symptoms flare. For those with absorption issues or extremely low levels, intravenous (IV) iron may be an option under medical supervision. But in most cases, a daily iron supplement can be a simple, effective starting point. Dopaminergic medications have long been the go-to treatment for RLS. Drugs like ropinirole, pramipexole, and rotigotine are dopamine agonist medications that mimic dopamine, specifically the brain chemical dopamine, which is a chemical messenger dopamine involved in muscle movement and sensory regulation. These drugs work by increasing dopamine levels in the brain and acting on dopamine receptors to relieve symptoms. They can be very effective—especially in the early stages of treatment. Ropinirole, in particular, is FDA-approved and backed by three robust clinical trials. These studies showed notable improvements in the International RLS Rating Scale (IRLS) and Clinical Global Impressions-Improvement Scale (CGI-I) at an average dose of 2 mg/day over 12 weeks [2] [3]. But there's a catch. Over time, some patients experience 'augmentation'—a worsening of symptoms, either earlier in the day or in new body parts. Others may develop side effects like nausea, dizziness, impulse control disorder (such as compulsive gambling or shopping), daytime drowsiness, or weight gain. Symptoms occur when side effects or augmentation develop, and certain medications—including antipsychotic drugs and anti seizure medications—can interact with dopaminergic agents or worsen RLS symptoms. Some medications can worsen symptoms, worsen RLS, or make RLS symptoms worse, so monitoring is needed to prevent symptoms worse and worsening symptoms. Because of these risks, the 2025 AASM guideline recommends limiting dopaminergic agents to carefully selected patients and emphasizing routine monitoring [1]. For many, these medications still play an important role in treating RLS, especially in severe RLS cases, but with caution and close follow-up to treat RLS, relieve symptoms, and ensure that treating RLS does not lead to further complications. When dopamine agonists aren't suitable—due to side effects, contraindications, or comorbidities like end-stage renal disease (ESRD)—other medication classes come into play. These medications are also used to treat periodic limb movement disorder, a related sleep disorder. Periodic limb movement and periodic limb movements are common in RLS and can disrupt sleep, making their management important for overall sleep quality. Patients with developing RLS in middle age or those with early onset (before age 45) may particularly benefit from these alternatives. Gabapentin and gabapentin enacarbil (a longer-acting version) are particularly helpful in RLS patients with sleep disturbances or pain. These alpha-2-delta ligands work by calming nerve activity and improving sleep quality. They act on the central nervous system, nervous system, and may affect the spinal cord to help control symptoms [6]. They're a go-to choice for people who can't tolerate dopamine drugs or who are at high risk for augmentation. In rare, severe cases, extended-release oxycodone may be prescribed. But opioids are considered a last resort due to concerns around tolerance, dependence, and long-term safety [1]. There is also an increased risk of adverse effects, including dependence and other complications. That said, for patients with refractory RLS who have exhausted other options, carefully monitored opioid use can provide much-needed, though often only temporary relief. Guidelines for these medications are developed by a combined task force of experts in the field of clinical sleep medicine, ensuring recommendations are evidence-based and up to date. Medications aren't the only answer. In fact, combining drug therapy with non-pharmacological treatments often leads to the best outcomes—especially for those with mild to moderate RLS or who want to minimize medication use. Simple lifestyle changes—such as improving sleep hygiene, adjusting daily routines, and avoiding triggers—can also play a key role in managing RLS symptoms. A 2019 systematic review highlighted several low-risk interventions with emerging benefits [4] [5]: For ESRD patients, cool dialysate and intradialytic stretching have been shown to reduce RLS severity during dialysis sessions. While more large-scale studies are needed, these approaches offer accessible, often cost-effective ways to support conventional treatments. RLS is one of several sleep disorders, and consulting a sleep specialist may be helpful for complex or persistent cases. Whether you're starting iron therapy, trying ropinirole, or exploring non-drug therapies, ongoing monitoring is essential. Symptoms may wax and wane, and medications can lose effectiveness or cause side effects over time. Regular follow-up visits allow healthcare providers to: For many patients, managing RLS becomes a long-term balancing act—but one that's highly achievable with the right support and care plan. Restless Legs Syndrome may not be dangerous, but it can take a serious toll on sleep, mental health, and quality of life. Fortunately, there are more treatment options than ever—ranging from iron supplements and dopamine agonists to gabapentin, opioids, and innovative non-drug therapies. What matters most is a personalized, evidence-based approach. For patients, that means partnering with a knowledgeable provider, staying open to a combination of treatments, and committing to regular check-ins. Relief is possible—and better sleep is well within reach. [1] Winkelman, J. W., Berkowski, J. A., DelRosso, L. M., Koo, B. B., Scharf, M. T., Sharon, D., Zak, R. S., Kazmi, U., Falck-Ytter, Y., Shelgikar, A. V., Trotti, L. M., & Walters, A. S. (2025). Treatment of restless legs syndrome and periodic limb movement disorder: an American Academy of Sleep Medicine clinical practice guideline. Journal of clinical sleep medicine : JCSM : official publication of the American Academy of Sleep Medicine, 21(1), 137–152. [2] Harrison, E. G., Keating, J. L., & Morgan, P. E. (2019). Non-pharmacological interventions for restless legs syndrome: a systematic review of randomised controlled trials. Disability and rehabilitation, 41(17), 2006–2014. [3] Bega, D., & Malkani, R. (2016). Alternative treatment of restless legs syndrome: an overview of the evidence for mind-body interventions, lifestyle interventions, and neutraceuticals. Sleep medicine, 17, 99–105. [4] Ferini-Strambi L. (2009). Treatment options for restless legs syndrome. Expert opinion on pharmacotherapy, 10(4), 545–554. [5] Chen, J. J., Lee, T. H., Tu, Y. K., Kuo, G., Yang, H. Y., Yen, C. L., Fan, P. C., & Chang, C. H. (2022). Pharmacological and non-pharmacological treatments for restless legs syndrome in end-stage kidney disease: a systematic review and component network meta-analysis. Nephrology, dialysis, transplantation : official publication of the European Dialysis and Transplant Association - European Renal Association, 37(10), 1982–1992. [6] Anguelova, G. V., Vlak, M. H. M., Kurvers, A. G. Y., & Rijsman, R. M. (2020). Pharmacologic and Nonpharmacologic Treatment of Restless Legs Syndrome. Sleep medicine clinics, 15(2), 277–288.


Medscape
13-06-2025
- Medscape
Rapid Rx Quiz: Sleep Apnea Devices
CPAP (continuous positive airway pressure), along with other devices such as APAP (automatic positive airway pressure) and BiPAP (bilevel positive airway pressure), have been the mainstay in treating obstructive sleep apnea (OSA) for decades. Despite their proven effectiveness, patients can struggle with discomfort or intolerance of these treatments, which can lead to suboptimal adherence. As a result, alternative devices have been developed to address the needs of individuals who cannot tolerate traditional therapy, offering other approaches to maintaining airway patency and managing related health outcomes. What do you know about devices for sleep apnea? Test yourself with this brief quiz. Current clinical practice guidelines from the AASM recommend the use of either APAP or CPAP in OSA treatment in adults. No clinically meaningful differences were found in outcomes of APAP treatment vs CPAP treatment, and benefits and harm were similar between the two modalities. Patient tolerance and symptom response should guide the choice of one over the other. APAP or CPAP are recommended over BiPAP for initial treatment of OSA in adults. BiPAP might provide an expiratory pressure that is too low to prevent obstructive breathing. However, BiPAP therapy for OSA might be appropriate in certain patients, such as those who have not responded to treatment with APAP and CPAP or those who require very high pressures (> 20 cm H2O). Learn more about sleep-disordered breathing and CPAP. According to current guidelines from the AADSM, patients should be seen by their dentist for a follow-up evaluation within 30 days after appliance insertion. During the first year, patients should be re-evaluated every 6 months, and at least once annually after that to assess treatment efficacy and adherence. At these visits, the treating dentist should use the same standardized tools and questionnaires employed during the initial evaluation to monitor symptoms and treatment response. Adjustment of the oral appliance depends on several factors, including the patient's mandibular range of motion, OSA severity, comfort, and observed changes in symptoms. A collaborative protocol between the treating dentist and the patient's medical provider should be in place to support objective and coordinated assessment. Learn more about oral appliance therapy for OSA. The implantable hypoglossal nerve stimulator received US Food and Drug Administration (FDA) approval in 2014 for the treatment of moderate to severe OSA in patients who have not responded to or cannot tolerate PAP therapy. As hypoglossal nerve stimulation has been shown to be most efficacious in those with a BMI < 32, an adult with moderate OSA and a BMI of 28 probably would be a good candidate for this treatment approach. Hypoglossal nerve stimulation has not been approved in patients aged < 18 years, so a boy aged 15 years would not be a candidate. Also, the stimulator is contraindicated in patients with central sleep apnea. The safety of hypoglossal nerve stimulation has not been established in pregnant patients and should not be undertaken. Learn more about upper airway evaluation in snoring and OSA. An external tongue muscle stimulator device was cleared by the FDA in 2020. Intended for use 20 min/d for 6 weeks and then twice per week subsequently, the device requires far less patient time commitment than some other OSA therapy devices. The tongue muscle stimulator is designed to be used while awake for 20-minute increments. It is indicated for snoring and mild OSA and is not indicated to treat OSA with an apnea-hypopnea index (AHI) > 15. The device is approved only for adults aged ≥ 18 years. Learn more about macroglossia. EPAP devices are noninvasive, valve-based devices for the treatment of mild to moderate OSA. They function by creating resistance during expiration, generating back pressure that helps keep the upper airway open during sleep. Unlike CPAP therapy, which provides constant pressure during both inhalation and exhalation, EPAP devices are passive and provide pressure only during expiration. These devices do not require batteries or power sources. They resemble nasal pillows, like those used with many CPAP machines. Unlike oral appliances, EPAP devices do not require custom fitting. Monthly calibration is also not needed. Learn more about pathologic conditions associated with OSA.
Yahoo
10-06-2025
- Yahoo
How having a sleepy teen could save your kid from a future heart attack
For parents with a sleepy teenager, less variable sleep patterns could be a sign of a healthier future for their child. Teens who had better sleep habits at age 15 were found to have improved heart health seven years later, researchers at the American Academy of Sleep Medicine said on Monday. The healthy sleep habits include falling asleep and waking up earlier, spending a lower percentage of time in bed awake, and having lower variability in total sleep time and sleep onset. Average total sleep time did not predict future cardiovascular health. In teens, cardiac incidents are rare, but they can occur. Approximately 2,000 young and seemingly healthy people under the age of 25 die each year of sudden cardiac arrest, according to the Centers for Disease Control and Prevention. Heart attacks in people under 40 have been increasing over the past decade, the Cleveland Clinic notes. 'Given the importance of sleep health for physical health and well-being in the short-term, we were not surprised to see a lasting association between adolescent sleep timing, sleep maintenance efficiency, and sleep variability with cardiovascular health in young adulthood,' Dr. Gina Marie Mathew, a senior post-doctoral associate in public health at Stony Brook Renaissance School of Medicine, explained in a statement. 'It was unexpected, however, that with and without adjustment for potentially confounding factors, total sleep time during adolescence was not a significant predictor of cardiovascular health during young adulthood,' she added. 'This single null finding, of course, does not indicate that total sleep time is unimportant. Rather, when paired with other studies, these findings underscore the complexity of sleep health and the need to consider multiple sleep dimensions as potential targets for promoting and maintaining cardiovascular health.' Mathew was the lead data analyst and author of the National Institutes of Health-backed research that was presented on Sunday at the SLEEP 2025 annual meeting. To reach these conclusions, the researchers analyzed data from Princeton and Columbia University's Future of Families and Child Wellbeing Study: the longest-running and only contemporary U.S. birth cohort study of young adults based on a national sample. Their data included 307 adults, the majority of whom were girls. At age 15, participants wore a device on their wrist for a week to measure sleep variables. At age 22, their cardiovascular health was assessed using their diet, physical activity, exposure to nicotine, body mass index, and measurements of fats in the blood, blood sugar, and blood pressure. They were scored based on these factors using the American Heart Association's Life's Essential 8. Teens between the ages of 13 and 18 years old should sleep eight to 10 hours regularly to promote optimal health, the academy said. Getting the recommended number of hours is associated with improved attention, behavior, memory, mental and physical health, and other positive outcomes. However, Mathew pointed out that the results highlight the need for a more comprehensive approach to address the relationship between adolescent sleep health and cardiovascular health. 'Future research and recommendations should emphasize the importance of multiple dimensions of sleep health, including earlier sleep timing, higher sleep maintenance efficiency, and lower sleep variability as protective factors for long-term heart health,' she said.